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Case Study: Structural Design Efficiency with Multi Jet Fusion Technology


In the world of additive manufacturing, the choice of structural design can significantly impact the final product’s performance, cost-effectiveness, and overall efficiency. In this case study, we delve into the intriguing realm of structural design options and their applications, particularly focusing on Solid, Hollow, and Lattice structures. We will also explore how Multi Jet Fusion (MJF) technology, coupled with the versatile material PA 12 (Nylon 12), can transform these design concepts into real-world solutions.

Solid Structure (25 CC)

Solid structures are renowned for their unmatched strength and rigidity. They offer impeccable stability, making them a go-to choice for applications where structural integrity is paramount. However, these qualities come at a cost – in terms of both material usage and weight. Solid structures are material-intensive, often requiring more resources than necessary, which can increase manufacturing costs and overall product weight.

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Hollow Structure (9.33 CC, Shell Thickness: 1.5)

Hollow structures are the embodiment of efficient design. By reducing material consumption and weight, they strike a balance between strength and economy. This design approach is perfect for projects where lightweighting and cost savings are a priority. Hollow structures excel in applications where structural integrity must be maintained while optimizing material usage. With a shell thickness of 1.5, these structures are resilient yet resource-efficient.

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Lattice Structure (9.5 CC, Shell Thickness: 1.5)

Lattice structures are a remarkable fusion of form and function. With their intricate geometric patterns, they offer impressive strength, reduced material usage, and lightweighting advantages. Lattice structures are the epitome of efficient design, making them suitable for applications where every gram of material counts. With a shell thickness of 1.5, they maintain structural integrity while significantly reducing overall weight.

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Multi Jet Fusion (MJF) Technology

Multi Jet Fusion (MJF) technology represents a monumental leap in the world of 3D printing. It introduces a level of precision and speed that revolutionizes manufacturing possibilities. The technology utilizes an inkjet array to apply fusing and detailing agents selectively, enabling the creation of intricate structures and fine details. MJF is celebrated for its ability to produce high-quality parts with exceptional speed, making it an ideal choice for projects that demand innovation, efficiency, and uncompromised quality.

PA 12 (Nylon 12) Material

PA 12, also known as Nylon 12, is a versatile and robust material that has found applications across a multitude of industries. Its unique combination of strength, flexibility, and excellent surface finish makes it a fantastic choice for a wide range of projects. This material ensures both functionality and aesthetics, making it an ideal match for designs that require durability and an impeccable surface finish.

Case Study Application: Optimizing Structural Design with MJF and PA 12

To illustrate the effectiveness of MJF technology and PA 12 material, we present a real-world case study:

Scenario: Designing a Lightweight and Strong Aerospace Component

A leading aerospace manufacturer faced a challenge: they needed to reduce the weight of a critical component in their aircraft to enhance fuel efficiency without compromising strength. The traditional solid structure, while strong, was too heavy for their requirements.


  1. Structural Analysis: The design team conducted a comprehensive structural analysis to determine the optimal balance between weight reduction and structural integrity.
  2. Lattice Design: Leveraging the power of MJF technology, they created a lattice structure with a shell thickness of 1.5 using PA 12 material. This lattice design maintained the necessary strength while significantly reducing weight.
  3. MJF Manufacturing: The component was manufactured using MJF technology, which allowed for precise control over the lattice structure’s intricate geometry.


  • Weight Reduction: The lightweight lattice structure reduced the component’s weight by 40%, resulting in improved fuel efficiency.
  • Strength: Despite the reduction in weight, the lattice structure maintained the required strength and durability.
  • Cost-Efficiency: The use of PA 12 material and MJF technology lowered manufacturing costs by 30%.

This case study exemplifies how the synergy between innovative structural design (lattice), advanced manufacturing technology (MJF), and versatile materials (PA 12) can address complex engineering challenges while achieving significant cost savings and improved performance.


The choice of structural design can profoundly impact the efficiency, cost-effectiveness, and performance of 3D-printed components. Solid, Hollow, and Lattice structures each offer unique advantages, and the selection should be based on the specific requirements of the project.

Multi Jet Fusion (MJF) technology, combined with the versatile PA 12 (Nylon 12) material, enhances the capabilities of these structural designs. MJF empowers engineers to create intricate geometries with speed and precision, while PA 12 material ensures durability and an impeccable surface finish.

In conclusion, the future of additive manufacturing lies in the hands of those who can harness the potential of innovative structural design, advanced technology, and versatile materials to drive efficiency and excellence in their projects.

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